Qizhi Diao | Medicine and Dentistry | Research Excellence Award

Research Excellence Award

Qizhi Diao
Hainan Branch, Shanghai Children’s Medical Center, School of Medicine, Shanghai Jiao Tong University, China
Qizhi Diao
Affiliation Shanghai Jiao Tong University
Country China
Designation Professor
Scopus ID 52563308500
Documents 19
Citations 252
h-index 9
Subject Area Medicine and Dentistry
Event International Phenomenological Research Awards
ORCID 0000-0003-1121-4656

Qizhi Diao is a professor affiliated with the Hainan Branch of Shanghai Children’s Medical Center, School of Medicine, Shanghai Jiao Tong University, Sanya, China. His academic work has focused on the synthesis of functional nanomaterials, the construction of advanced clinical diagnostic sensors, and the development of nanocarrier-mediated therapeutic systems for biomedical applications. His research activities have contributed to innovations in biosensing technologies, point-of-care diagnostics, CRISPR/Cas-enabled sensing systems, and nanopharmaceutical delivery platforms.[1] Diao has participated in multiple nationally and provincially funded scientific projects related to cancer diagnostics, SARS-CoV-2 detection technologies, and exosome identification systems within nucleic acid assembly frameworks.[2]

Abstract

The academic contributions of Qizhi Diao are associated with interdisciplinary developments in nanomedicine, biosensor engineering, and clinical laboratory technologies. His research has emphasized the design of graphdiyne-based nanostructures, electrochemical sensing systems, nanozyme-assisted diagnostics, and portable point-of-care biosensing platforms. Through projects supported by the National Natural Science Foundation of China and regional scientific agencies, Diao has contributed to the development of technologies for detecting infectious diseases, circulating tumor cells, and gastric cancer biomarkers.[3] His work integrates materials science, clinical diagnostics, and biomedical engineering into translational research frameworks applicable to modern laboratory medicine.

Keywords

Nanomaterials; Graphdiyne; Clinical Diagnostic Sensors; CRISPR/Cas Technology; Electrochemical Biosensors; Nanopharmaceuticals; Targeted Drug Delivery; Nanozymes; Medical Laboratory Technology; Point-of-Care Diagnostics; Biomedical Engineering; Electrochemical Sensing.

Introduction

Recent advancements in biomedical engineering and nanotechnology have accelerated the development of highly sensitive diagnostic platforms and targeted therapeutic systems. Within this scientific context, Qizhi Diao has conducted research aimed at integrating nanomaterial synthesis with clinical laboratory applications. His work has addressed major challenges in biosensing accuracy, rapid pathogen detection, and nanocarrier-mediated therapeutic delivery systems.[4]

Qizhi Diao’s investigations into graphdiyne-based sensing systems and nanozyme catalytic materials have contributed to the broader understanding of electrochemical diagnostics and biosensor miniaturization. His projects have also focused on CRISPR/Cas-mediated detection systems capable of improving diagnostic sensitivity for infectious diseases and cancer-associated biomarkers.[5]

Research Profile

Qizhi Diao has maintained a long-term academic focus on the fabrication of functional nanomaterials, clinical diagnostic sensors, and nanocarrier-mediated drug delivery systems. His institutional affiliations include the Hainan Branch of Shanghai Children’s Medical Center and Shanghai Jiao Tong University School of Medicine.[1]

His completed and ongoing projects include:

  • Research on encoding for the identification of plasma exosome subtypes based on confined recognition and amplification systems within nucleic acid assembly frameworks funded by the National Natural Science Foundation of China.
  • Portable sensors for simultaneous detection of multiple gastric cancer biomarkers using CRISPR/Cas technology funded by the Hainan Provincial Health Commission.
  • Point-of-care quantitative detection systems for SARS-CoV-2 nucleic acids using graphdiyne sub-nanosheets supported by the Natural Science Foundation Project of Chongqing.
  • Novel 3D magnetic nanocomposites based on graphdiyne-MOFs for simultaneous capture and chemotherapy of circulating tumor cells in peripheral blood.
  • Development of graphdiyne-based systems for the detection of SARS-CoV-2 antigen biomarkers under emergency biomedical research initiatives.

His scientific profile additionally includes responsibilities as an ISO 15189 medical laboratory accreditation assessor and research review expert for multiple scientific organizations and governmental institutions in China.[6]

Research Contributions

Among Qizhi Diao’s reported scientific contributions is the synthesis of sub-nanoscale graphdiyne materials for the rapid and quantitative detection of Mycobacterium tuberculosis and drug-resistant genes.[7] This work supported the development of fluorescence sensing systems with improved analytical sensitivity and operational simplicity.

He also contributed to the preparation of core-shell nanozymes such as ZrFe-MOF@PtSn exhibiting strong peroxidase-like catalytic properties for biosensing applications. Additionally, his research integrated miRNA-initiated strand displacement amplification with CRISPR/Cas12a amplification strategies, nanozyme catalysis, and machine-learning-assisted electrochemical sensing systems.[8]

Qizhi Diao has further contributed to patents related to electrochemical immunosensors, medical testing oscillation devices, and laboratory inspection equipment. These developments reflect the translational dimension of his work in clinical laboratory technologies.[9]

Publications

Qizhi Diao has published research in internationally recognized journals focusing on nanotechnology, biomedical sensing, and clinical diagnostic systems. His publications explore graphdiyne-based fluorescent sensing platforms for detecting Mycobacterium tuberculosis and drug-resistant genes, nanoparticle-based drug delivery systems for cardiovascular diseases, and nanozyme-assisted biosensing technologies for rapid pathogen detection. He has also contributed to studies on high-porosity carbon electrocatalysts and amino-functionalized carbon nanodots for biomedical applications. His scholarly work integrates nanomaterials, electrochemical sensing, CRISPR/Cas technologies, and translational laboratory medicine, supporting advancements in point-of-care diagnostics, targeted therapeutics, and innovative clinical biosensor development.

Research Impact

The research activities of Qizhi Diao have contributed to interdisciplinary developments linking nanotechnology, laboratory medicine, and biomedical sensing systems. His work on graphdiyne nanostructures and nanozyme catalytic platforms has been associated with improved biosensor sensitivity and enhanced diagnostic performance in infectious disease detection.[10]

According to the provided academic indicators, his research record includes an h-index of 9 and more than 252 citations indexed through Scopus, in addition to reported Web of Science citations exceeding 300.[11] His collaborative work with organizations such as the Chinese Medical Doctor Association and the Chinese Medical Association has also supported laboratory medicine standardization and diagnostic research initiatives.

Award Suitability

The academic profile of Qizhi Diao demonstrates sustained engagement in translational biomedical research, particularly within nanomaterials, biosensors, and clinical diagnostics. His involvement in nationally funded scientific projects, patented technologies, and peer-reviewed publications indicates an active contribution to applied medical research and laboratory innovation.

His combination of scientific output, technical expertise, research leadership, and participation in accreditation and evaluation activities supports consideration for the Research Excellence Award under the International Phenomenological Research Awards framework.

Conclusion

Qizhi Diao has contributed to the advancement of nanotechnology-enabled diagnostic systems and biomedical sensing platforms through interdisciplinary scientific research. His work combines materials engineering, electrochemical sensing, nanozyme catalysis, and clinical laboratory applications into translational biomedical solutions. Through publications, funded research projects, patents, and scientific service roles, he has established a research profile connected to contemporary developments in medical diagnostics and nanomedicine.

References

  1. International Phenomenological Research Awards. (2026). Award nomination application form: Qizhi Diao. https://phenomenologicalresearch.com/
  2. National Natural Science Foundation of China. Research project information related to biomedical sensing and exosome identification systems.
  3. Diao Q. Research projects and biomedical sensing technologies associated with clinical diagnostics and nanomaterials research.
  4. Shanghai Jiao Tong University School of Medicine. Biomedical nanotechnology and laboratory medicine research activities.
  5. CRISPR/Cas biosensing applications in rapid diagnostic systems and molecular detection technologies.
  6. China National Accreditation Service for Conformity Assessment (CNAS). ISO 15189 medical laboratory accreditation activities and technical assessment programs.
  7. Chang F, Huang L, Guo C, Xie G, Li J, Diao Q. (2019). Graphdiyne-Based One-Step DNA Fluorescent Sensing Platform for the Detection of Mycobacterium tuberculosis and Its Drug-Resistant Genes. ACS Applied Materials & Interfaces. https://pubs.acs.org/doi/abs/10.1021/acsami.9b15248
  8. Yang F, Xue J, Wang G, Diao Q. (2022). Nanoparticle-based drug delivery systems for the treatment of cardiovascular diseases. Frontiers in Pharmacology. https://doi.org/10.3389/fphar.2022.999404
  9. Chinese patent documentation related to electrochemical immunosensors, laboratory inspection devices, and medical testing technologies.
  10. Feng T, Liao W, Li Z, Sun L, Shi D, Guo C, Huang Y, Wang Y, Cheng J, Li Y, Diao Q. (2017). Heavily Graphitic-Nitrogen Self-doped High-porosity Carbon for the Electrocatalysis of Oxygen Reduction Reaction. Nanoscale Research Letters. https://link.springer.com/article/10.1186/s11671-017-2364-6
  11. Elsevier. (n.d.). Scopus author details: Qizhi Diao, Author ID 52563308500. Scopus. https://www.scopus.com/authid/detail.uri?authorId=52563308500

Ying Li | Geochemistry | Outstanding Scientist Award

Outstanding Scientist Award

Ying Li
Professor of Geochemistry Institute of Earthquake Forecasting, China Earthquake Administration, China
Ying Li
Affiliation Professor of Geochemistry Institute of Earthquake Forecasting, China Earthquake Administration
Country China
Scopus ID 55763793522
Documents 131
Citations 1591
h-index 23
Subject Area Geochemistry
Event International Phenomenological Research Awards
Scopus ID qCBdykoAAAAJ

Ying Li is a Chinese geochemist and earthquake fluid geochemistry researcher currently serving as Professor of Geochemistry and Deputy Director at the Institute of Earthquake Forecasting, China Earthquake Administration. His research focuses on fluid geochemistry in active tectonic zones, earthquake precursor mechanisms, geothermal systems, and high-pressure metamorphic processes in subduction environments. Through interdisciplinary integration of isotope geochemistry, seismic fluid monitoring, and experimental mineral physics, Ying Li has contributed substantially to the understanding of geochemical signals associated with tectonic activity and earthquake forecasting methodologies.[1]

Abstract

Ying Li has developed an internationally recognized research profile in geochemistry, earthquake fluid monitoring, tectonic geochemistry, and experimental high-pressure mineral physics. His investigations have addressed the behavior of deep-earth fluids within active tectonic fault zones and their implications for earthquake forecasting and seismic hazard assessment. Li’s scholarly contributions include extensive work on radon, carbon dioxide, methane, mercury, and geothermal fluid emissions associated with tectonic activity across the Tibetan Plateau, North China Craton, and Ordos Block.[2]

His research integrates geochemical field monitoring, isotope geochemistry, thermodynamic modeling, and laboratory-based high-pressure experiments to evaluate fluid migration processes in active crustal systems. He has also contributed to theoretical studies concerning dehydration reactions in subducted sediments and the metamorphic evolution of hydrous mineral systems under extreme pressure-temperature conditions.[3]

Keywords

  • Geochemistry
  • Earthquake Fluid Geochemistry
  • Tectonic Geochemistry
  • Radon Emissions
  • Active Fault Zones
  • Subduction Zone Metamorphism
  • High-Pressure Experimental Geochemistry
  • Seismic Forecasting
  • Geothermal Fluids
  • Fluid Migration Mechanisms

Introduction

The scientific study of earthquake-related geochemical processes has become increasingly important in understanding crustal deformation, tectonic stress accumulation, and fluid migration in active fault systems. Within this field, Ying Li has contributed extensively to the development of seismic fluid geochemistry as an interdisciplinary research domain integrating geophysics, geochemistry, mineralogy, and tectonics.[4]

Ying Li completed his doctoral studies in Experimental Geochemistry at the Institute of Geochemistry, Chinese Academy of Sciences, while also conducting research at Stuttgart University in Germany. He later served as a visiting scholar at Stony Brook University in the United States, further strengthening his expertise in mineral physics and experimental geoscience. His academic and administrative leadership at the Institute of Earthquake Forecasting has positioned him as a key figure in earthquake geochemistry research within China.[1]

Research Profile

Ying Li’s research profile encompasses both field-based tectonic geochemistry and laboratory-based high-pressure geoscience. His studies have focused on the geochemical behavior of fluids in active fault zones, particularly the emission and migration characteristics of gases such as CO2, CH4, radon, helium, and mercury within seismically active regions.[5]

In addition to earthquake-related geochemistry, Ying Li has conducted investigations into metamorphic dehydration reactions of subducted sediments under high-pressure and high-temperature conditions. His work combines thermodynamic calculations and experimental petrology to understand deep-earth fluid generation and mineral stability in subduction environments.[6]

  • Earthquake precursor geochemistry
  • Fluid migration in active fault systems
  • Geothermal water geochemistry
  • High-pressure mineral experiments
  • Subduction-zone metamorphism
  • Isotopic analysis of tectonic fluids
  • Seismic geochemical monitoring

Research Contributions

Ying Li has contributed to understanding the spatial and temporal variability of soil gas emissions in active tectonic regions of China. His studies demonstrated relationships between gas anomalies and fault activity, helping establish geochemical monitoring frameworks for seismic surveillance.[7]

Several of his investigations explored the correlation between geothermal fluid chemistry and tectonic segmentation in regions such as the Zhangjiakou-Penglai fault zone and Tibetan Plateau fault systems. These studies provided insight into deep fluid circulation, hydrothermal processes, and structural controls on geothermal systems.[8]

Ying Li also contributed to high-pressure geoscience through experimental analyses of carbonate minerals and dehydration processes in pelitic systems. His thermodynamic and experimental studies improved understanding of fluid release mechanisms during subduction metamorphism and mantle wedge interactions.[9]

  • Investigation of radon and CO2 emissions across active faults
  • Analysis of geothermal fluid isotope systems
  • Experimental modeling of hydrous mineral stability
  • Thermodynamic calculations of subducted sediment dehydration
  • Assessment of fluid geochemistry in seismic forecasting
  • Characterization of tectonic fluid migration processes

Publications

Ying Li has authored and co-authored more than 130 indexed publications and several scholarly books in geochemistry and earthquake science. His publications appear in internationally recognized journals including Chemical Geology, Applied Geochemistry, Geothermics, Earth and Space Science, American Mineralogist, and Journal of Asian Earth Sciences.[9]

Research Impact

The scientific impact of Ying Li’s work is reflected in his publication record, citation metrics, leadership roles, and interdisciplinary collaborations. His Scopus profile records more than 1,591 citations and an h-index of 23, indicating sustained influence within geochemistry and earthquake science communities.[1]

Ying Li has contributed to major scientific initiatives related to earthquake prediction and fluid geochemistry, including UNESCO International Geoscience Programme projects and national earthquake monitoring programs in China. His work has supported advances in geochemical surveillance methods and improved understanding of deep-earth fluid systems associated with seismic activity.

In addition to research, Ying Li has served in editorial and professional leadership positions, including roles within the Seismological Society of China and editorial boards of geoscience journals. These contributions demonstrate continued engagement in scientific coordination and academic development within the field.

Award Suitability

Ying Li’s research profile demonstrates strong alignment with the objectives of the International Phenomenological Research Awards and the Outstanding Scientist Award category. His scientific contributions span theoretical geochemistry, field-based tectonic investigations, seismic fluid monitoring, and experimental high-pressure mineralogy.

His studies on earthquake fluid geochemistry and tectonic gas emissions have advanced understanding of the relationship between geochemical anomalies and seismic processes. Furthermore, his leadership in multidisciplinary projects and his sustained publication record indicate a long-term commitment to advancing geoscience research at both national and international levels.

Conclusion

Ying Li has established a distinguished academic career in geochemistry and earthquake fluid science through extensive research on tectonic fluids, seismic precursor mechanisms, and subduction-zone metamorphic processes. His interdisciplinary methodology, combining field observations with experimental geoscience and thermodynamic modeling, has contributed significantly to the understanding of deep-earth fluid systems and earthquake-related geochemical phenomena.

Through sustained scholarly productivity, scientific leadership, and participation in international geoscience collaborations, Li continues to influence the development of earthquake geochemistry and tectonic fluid research. His achievements support recognition within the Outstanding Scientist Award category of the International Phenomenological Research Awards.[1]

References

  1. Elsevier. (n.d.). Scopus author details: Ying Li, Author ID 55763793522. Scopus. https://www.scopus.com/authid/detail.uri?authorId=55763793522
  2. Hu L, Li Y*, Liu Z, et al. (2025). Undervalued CO2 emissions from soil to the atmosphere in seismic areas. Global and Planetary Change. https://papers.ssrn.com/sol3/papers.cfm?abstract_id=4896640
  3. Li Y, Du JG. (2010). Thermodynamic calculation on the phase transformation and water release of subducted sediment from 10 to 35kbar.https://doi.org/10.1016/j.jpcs.2010.03.010
  4. Li Y, Chen Z, Hu L, et al. (2022). Advances in seismic fluid geochemistry and its application in earthquake forecasting. https://doi.org/10.1360/TB-2021-0955
  5. Li Y, Massonne HJ, Willner A, et al. (2008). Dehydration of clastic sediments in subduction zones. Island Arc. https://doi.org/10.1111/j.1440-1738.2008.00640.x
  6. Yang Y, Li Y*, Guan ZJ, Chen Z*, et al. (2018). Correlations between radon concentrations in soil gas and fault activity. Applied Geochemistry. https://doi.org/10.1016/j.apgeochem.2017.11.006
  7. Su SJ, Li Y*, Chen Z, et al. (2022). Geochemistry of geothermal fluids in the Zhangjiakou-Penglai fault zone. https://doi.org/10.1016/j.jseaes.2022.105218
  8. Li Y, Zou YT, Wang XB, et al. (2015). P-V-T equation of state and high-pressure behavior of CaCO3 aragonite. https://doi.org/10.2138/am-2015-5246
  9. Google Scholar. (n.d.). Ying Li citation profile and publication metrics. https://scholar.google.com/citations?user=qCBdykoAAAAJ&hl=en&oi=sra

Dr. Elena Tchetina | Medicine and Dentistry | Excellence in Research Award

Dr. Elena Tchetina | Medicine and Dentistry | Excellence in Research  Award 

Leading Scientist at Nasonova Research Institute of Rheumatology | Russia

Dr. Elena Tchetina is a distinguished researcher in medicine and dentistry, recognized for her impactful contributions to molecular biology and rheumatology. Her academic foundation includes advanced training in microbiology, cell biology, and molecular sciences, supporting a strong interdisciplinary approach to biomedical research. She has extensive experience as a leading scientist and principal investigator, contributing to high-level research in immunology and molecular physiology. Her research interests focus on osteoarthritis, rheumatoid arthritis, and osteoporosis, with emphasis on gene expression, metabolic regulation, and biomarker discovery for disease progression and therapeutic response. Dr. Elena Tchetina has produced 53 documents with an h-index of 18 and has received 8,094 citations across 7,863 documents, reflecting her global research influence. Her work advances translational medicine by connecting molecular insights with clinical applications, strengthening innovative strategies for diagnosis, prognosis, and personalized treatment in rheumatic diseases.

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Featured Publications

Molecular Mechanisms of Osteoarthritis Progression and Cartilage Degeneration

– International Journal of Molecular Sciences

Gene Expression Signatures in Rheumatoid Arthritis and Therapeutic Targets

– Frontiers in Immunology

Biomarkers for Predicting Disease Progression in Osteoarthritis Patients

– Arthritis Research & Therapy

Metabolic Pathways and Inflammation in Joint Disorders

– Journal of Clinical Medicine

Translational Approaches in Rheumatology: From Molecular Insights to Clinical Practice

– Clinical Rheumatology

Ms. Carla Canullo | Philosophy | Women Researcher Award

Ms. Carla Canullo | Philosophy | Women Researcher Award 

Full Professor at University of Macerata | Italy

Ms. Carla Canullo is a distinguished scholar in theoretical philosophy whose research advances contemporary debates in phenomenology, hermeneutics, and philosophy of religion. Her work critically explores subjectivity, freedom, transcendence, and intercultural dialogue, contributing to a deeper understanding of human identity and metaphysical inquiry. With a strong academic trajectory and international collaborations, Ms. Carla Canullo has demonstrated sustained excellence in research, teaching, and scholarly engagement. Her contributions are reflected in 23 academic documents and 10 citations across 10 citing works, alongside an h-index of 1, indicating emerging yet impactful scholarly influence. Through interdisciplinary and globally engaged philosophical research, she continues to shape critical discussions in modern philosophy, particularly in bridging phenomenological traditions with contemporary ethical and cultural challenges.

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Franziska Münz | Medicine and Dentistry | Future Science Leader Award

Dr. Franziska Münz | Medicine and Dentistry | Future Science Leader Award 

Physician at Universität Heidelberg | Germany

Dr. Franziska Münz is a promising researcher in the field of Medicine and Dentistry, demonstrating strong scientific impact through 10 scholarly documents that have collectively received 97 citations across 88 academic works, alongside an h-index of 5. Her research contributions focus on advancing medical knowledge through evidence-based approaches, particularly in clinically relevant and translational domains. Her work reflects a commitment to improving healthcare outcomes by exploring innovative methodologies and interdisciplinary perspectives. With a growing citation record and consistent publication output, Dr. Franziska Münz shows clear potential as an emerging leader in future scientific advancements. Her research trajectory highlights both quality and influence, positioning her as a valuable contributor to the global medical research community and a strong candidate for recognition under the Future Science Leader Award.

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